Converting IC layout into 3D CAD Models for EM analysis
Fast Simulations of Energy Selective Surfaces via Reduced Order Models
- Field Interaction with Nonlinear Structures
- Fast Analysis and Optimization of Substrate Integrated Waveguide (SIW) Antennas Using the Contour Integral Method (CIM)
Extending the Possibilities of the Linear Network Solver CONCIRC
Extension of the Contour Integral Method for Stochastic Modeling of Waveguiding Structures
Validation of Numerical Methods Using a Comparative Analysis of Canonical Electromagnetic Problems
MoM-Based Computation of Multiconductor Transmission Line Per-Unit-Length Parameters
Implementation of a Linear Network Solver
Fast Direct H-Matrix Solvers for Computational Electromagnetics
Extension of the Contour Integral Method for the Electrical Design of Planar Structures in Digital System
A Contribution to the PEEC-Method and its Hybridisation with the Method of Moments
Methods for Fast Solution of Large Systems of Equations in the Method of Moments
Development of an Automated Storage of Numerical Simulation Results Based on OpenBIS
High Speed Automotive Interconnect Design for Gbps Links
Data-Driven Design and Analysis of High-Speed Interconnects on PCBs
Research and Modelling of Ultra-High-Speed Interconects
Electronic Design Flow Improvement with Machine Learning Tools
- Application of Model Order Reduction Techniques to the Simulation of Complex Interconnect Systems
Evaluation of Interconnects up to 100 GHz Using Machine Learning
- Stochastic Contour Integral Methodology for the Computation of Two-Dimensional Electromagnetic Wave Propagation
Combined Assessment of Interconnect and Equalization in Data Links on Multilayer Printed Circuit Boards
Electromagnetic Modeling and Optimization of Through Silicon Vias
Software-Benchmarking for Signal and Power Integrity Applications
50+ Gbps High Speed Serial Link Design for Digital Systems
Via Array Modeling for Application in Fast, Energy-Efficient Digital Systems
Exploration of Power Supply Noise Effects on Maximum Data Rates of High Speed Digital Links in Advanced Server Systems
Development, Validation and Application of Semi-Analytical Interconnect Models for Efficient Simulation of Multilayer Substrates
Thermo-Electrical EMC Filter Design for Electric Vehicles (TEFDEV)
Active Learning for Optimization of EMC processes
Analysis of Orbital Angular Momentum (OAM) Antennas in Complex Environments
EMC of Complex Systems
HIRF Protection Using Energy Selective Diode Arrays
Analysis of Electromagnetic Interference in Server Casings
Application of the Characteristic Mode Analysis to Antenna Design and Electromagnetic Compatibility
Accurate and Efficient Algorithms in the Method of Moments for the Analysis of High Intensity Radiated Field Coupling into Aircraft
Development of a Full-Wave Module for the High Intensity Radiated Field (HIRF) Synthetic Environment
Machine Learning Methods for Application in Bio-EMC
Prediction of the Electromagnetic Biocompatibility of Human Brain Implants
Extension of CONCEPT-II for the Efficient Modeling of Various Types of Coils
Characterization of Transmit-Receive Antennas for Magnetic Resonance Imaging via Moment Method and Volume Segmentation
Radio Frequency Measurement and Modeling of Miniaturized Components for High-Speed Applications
- Functional Via-Structures in Ceramic Multilayered Substrates
Design and Characterization of RF-Components and High-Speed Interconnects on LTCC Substrates
Design of Passive Microwave Components on Multilayered Printed Circuit Boards Using Functional Vias
Probing and Fixturing Techniques for Wideband Multiport Measurements in Digital Packaging
Electric fields calculated in a populated PC system: a metallic enclosure of dimensions (20x20x10 cm) contains a Mini-ITX mainboard with attached RAM modules and a CPU/heatsink configuration. In the depicted field distribution (8GHz), a monopole antenna is used to represent the RF excitation of the CPU. At these frequencies, 100000 unknowns are required to discretize the surface current distribution. The numerical calculation could be performed in less than an hour on four cores – including the evaluation of the electric fields at more than one million observation points. (Source: TET, TUHH)